ntvНаучно-технический вестник информационных технологий, механики и оптикиScientific and Technical Journal of Information Technologies, Mechanics and Optics2226-14942500-0373Университет ИТМО10.17586/2226-1494-2024-24-6-923-935ntv-398Research ArticleОПТИЧЕСКИЕ СИСТЕМЫ И ТЕХНОЛОГИИOPTICAL ENGINEERINGСовременные оптические методы бесконтактных геометрических измерений и восстановления 3D-формы поверхности объектов: обзорModern optical methods of non-contact geometric measurements and reconstruction of object 3D surface shape: a reviewhttps://orcid.org/0000-0002-2015-0458ЧертовА. Н.ChertovA. N.

Чертов Александр Николаевич - кандидат технических наук, доцент, старший научный сотрудник,

Москва, 117342

Aleksandr N. Chertov - PhD, Associate Professor, Senior Researcher,

Moscow, 117342

chertov.an@ntcup.ruhttps://orcid.org/0000-0003-0919-7762ХохловД. Д.KhokhlovD. D.

Хохлов Демид Денисович - кандидат технических наук, заведующий лабораторией,

Москва, 117342ru

Demid D. Khokhlov - PhD, Head of Laboratory,

Moscow, 117342

khokhlov.dd@ntcup.ruНаучно-технологический центр уникального приборостроения Российской академии наукРоссияScientific and Technological Centre of Unique Instrumentation of the Russian Academy of SciencesRussian Federation202428122024246923935Copyright © Чертов А.Н., Хохлов Д.Д., 20242024Чертов А.Н., Хохлов Д.Д.Chertov A.N., Khokhlov D.D.Данная работа распространяется под лицензией Creative Commons Attribution 4.0.This work is licensed under a Creative Commons Attribution 4.0 License.https://ntv.elpub.ru/jour/article/view/398Введение

Введение. Работа посвящена изучению и систематическому обобщению существующего опыта в области определения и контроля геометрических параметров различных объектов при помощи оптических методов.

Метод

Метод. При поиске научных источников по тематике работы использовались открытые международные библиографические базы и поисковые машины. Для рассмотрения отбирались работы, посвященные описанию аппаратно-программных средств для бесконтактных геометрических измерений и/или восстановления 3D-формы поверхности материальных объектов, построенных на основе оптических методов, а также примеров их применения для решения практических задач. Критерием отбора рассматриваемых работ было соответствие набору ключевых слов и публикация в высокорейтинговых отечественных и зарубежных изданиях не старше 2010 года.

Основные результаты

Основные результаты. Предложена систематическая классификация описанных в рецензируемых научных изданиях оптических методов и аппаратно-программных средств для бесконтактных геометрических измерений и восстановления 3D-формы поверхности объектов. Выполнена сравнительная качественная оценка методов и аппаратно-программных средств. Выявлены методы, наиболее эффективные при решении отдельных практических задач. Обозначены основные ограничения рассмотренных методов и средств. Выделены основные тенденции развития рассмотренных методов. Установлено, что тенденции развития сопряжены с миниатюризацией и развитием технологий производства электронных компонентов, повышением чувствительности и увеличением пространственной и временной разрешающей способности детектирующих элементов. Также тенденции оказывают влияние на развитие методов расширения номенклатуры и функциональных возможностей источников излучения и на увеличение возможностей автоматизированной обработки данных.

Обсуждение

Обсуждение. Выполненный систематический обзор может быть использован при выборе оптического метода, оптимального для решения практических задач в таких областях, как неразрушающий контроль и малоинвазивная диагностика, навигация роботизированных систем, создание цифровых копий материальных объектов. Представленная работа может быть полезна студентам профильных специальностей технических учебных заведений для ознакомления с актуальным срезом современных методических и аппаратно-программных средств.

The article is devoted to the study and systematic generalization of the existing experience in the field of determination and control of geometric parameters of various objects using optical methods. When searching for literary sources on the work subject, open international bibliographic databases and search engines were used. Scientific articles devoted to the description of hardware and software for contactless geometric measurements and/or restoration of the threedimensional surface shape of material objects constructed on the basis of optical methods as well as examples of their application to solve practical problems were selected for consideration. The selection criterion for the works under consideration corresponded to the set of keywords and publication in highly rated domestic and foreign publications no older than 2010. A systematic classification of optical methods and hardware and software for contactless geometric measurements and restoration of the three-dimensional surface shape of objects described in peer-reviewed scientific publications is proposed, a comparative qualitative assessment is performed. The most effective methods for solving individual practical problems are identified. The main limitations of the considered methods and means are indicated. The main trends in the development of the considered methods associated with miniaturization and development of electronic component manufacturing technologies, increased sensitivity, spatial and temporal resolution of detecting elements, expanded range and functionality of radiation sources, and the development of automated data processing capabilities are highlighted. The article is a systematic review that can be used to select an optical method that is optimal for solving practical problems in such areas as non-destructive testing and minimally invasive diagnostics, navigation of robotic systems, and creation of digital copies of material objects. In addition, the presented article can be useful for students of specialized specialties of technical educational institutions to familiarize themselves with the current crosssection of modern methodological and hardware-software tools.

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The authors declare that there are no conflicts of interest present.